Maritime Unmanned Navigation through Intelligence in Networks The MUNIN project

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Maritime Unmanned Navigation through Intelligence in Networks The MUNIN project www.unmanned-ship.

1 Maritime Unmanned Navigation through Intelligence in Networks The MUNIN project Consortium meeting, Reykjavik March COMPIT 2013 conference, Cortona, Italy April Thomas Porathe, Maritime Human Factors Chalmers University of Technology Gothenburg. Sweden, Hans-Christoph Burmeister Fraunhofer Center for Maritime Logistics and Services Germany Ørnulf Rødseth MARINTEK Norway SST : Grant no E-guided vessels: The 'autonomous' ship

2 The autonomous/unmanned ship Target ship: A simulated, about 200 meters long, dry bulk vessel of DWT 2 /36

3 Autonomous/unmanned ships An autonomous ship Automatic navigation and collision avoidance. Automatic engine control. Not necessarily unmanned. Can house maintenance and repair crew. Even be partly manned. An unmanned ship No-one onboard. Not necessarily under automatic navigation / engine control. Can be remote controlled from shore center. 3 /36

4 Objective of the project To show the feasibility of autonomous/unmanned shipping To show that an unmanned ship system is at least as safe as a manned. Motivation 1. Shortage of mariners in Europe 2. Reduce human error 3. Ultra-slow steaming, using ocean currents, leads to lower fuel costs and lower emissions, but also less efficient transport capacity and socially unacceptable voyage durations. 4. Lower manning costs 4 /36

5 Objective of the project To show the feasibility of autonomous/unmanned shipping To show that an unmanned ship system is at least as safe as a manned. Human error contribution to shipping accidents 84-88% of tanker accidents 79% of towing vessel Motivation 1. Shortage of mariners in Europe 2. Reduce human error groundings 3. Ultra-slow steaming, using ocean currents, leads to lower fuel costs and lower 89-96% of collisions 75% of allisions 75% of fires and explosions emissions, but also less efficient transport capacity and socially unaccessible voyage durations. 4. Lower manning costs Various studies by TSB Canada, Cormier, UK P&I Club and Bryant. 4 /36

6 Objective of the project To show the feasibility of autonomous/unmanned shipping To show that an unmanned ship system is at least as safe as a manned. Motivation 1. Shortage of mariners in Europe 2. Reduce human error 3. Ultra-slow steaming, using ocean currents, leads to lower fuel costs and lower emissions, but also less efficient transport capacity and socially unacceptable voyage durations. 4. Lower manning costs 4 /36

7 Daylight and IR cameras Shore Control Center (SCC) Autonomous bridge Satellite link Autonomous engine room The unmanned / autonomous ship Rendezvous control Automatic collision avoidance 5 /36

8 Work tasks and partners Architecture. To develop the necessary interface specifications for the ship and shore software applications to communicate effectively and safely (MARINTEK, Norway) Develop the autonomous bridge controller (Fraunhofer Center for Maritime Logistics and Services, Germany) Develop the autonomous engine controller (MarineSoft, Germany, MARORKA, Iceland) Develop the Shore Control Centre (Chalmers University of Technology, Sweden, Aptomar, Norway) Proof of concept, simulated ship and engine (Wismar University of Applied Sciences) Legal and liability analysis for automated and remote controlled ship systems (University College Cork, Ireland) Future concepts (All) 6 /36 8

9 Communications Functional Status Indicators sent each 5 sec. Location Indicator Data reference FSI Bytes Position, heading, speed, distance from planned position as well as a position quality flag. Weather Wind speed/direction, wave and swell hight/ length/ direction 12 Visibility Collision Visibility IR/Normal, radar range and clutter. COLREG status of ship. Vectors to targets, status/heading/speed of targets. 5 ships/objects in vicinity Grounding Depth, distance to shore, complexity Communication Critical communication directly to ship on VHF, GMDSS, NAVTEX, DSC, AIS 270 Stability Trim, heel, draft, watertight integrity, void space, water ingress. 20 Environment NOx, SOx, PM, Waste, Oil, GHG 12 Economy Fuel use and potential for late arrival, off hire etc. 6 Hull Equipment Hull monitoring, corrosion, equipment status, anchor, towing, ladders, etc. 12 Propulsion Direction, speed anomalies 4 Machinery Power, steam, auxiliary, hydraulic etc 10 Electric Generators, switchboard, emergency 6 Safety Main fire zones 16 Cargo Temperature, humidity, levels, 5 holds 30 7 /36

10 Communications High seas; Satellite communication Coastal waters: GSM/3G/4G, AIS, VDE 1. One main communication channel based on a commercial VSAT service operating in C-, Ku- or Ka-band. Capacity should be 4 Mbps or higher to cover the maximum aggregated bandwidth. This will enable unrestricted remote control of the ship. 2. A backup channel based on L-band Inmarsat or Iridium OpenPort with a capacity of 128 kbps or more. This would cover all but the high capacity links (e.g. video, voice communication). This will allow restricted remote control with full radar image, but only sporadic visual or IR images. 3. A dedicated and independent rendezvous communication channel based on, e.g., AIS or digital VHF technology. This allows recovery of ship even if main communication channels have been lost. 8 /36

11 Shore Control Center Monitoring Indirect control Direct control Situation handling 9 /36

12 Picture insert from video/ir camera 3-D Nautical Chart * Shore Control Center Monitoring Indirect control Direct control Situation handling Situation room: Team work, Immersion * Porathe, T. (2006). 3-D Nautical Charts and Safe Navigation. Dissertation, Mälardalen University Press. 10 /36

13 * Porathe, T. (2006). 3-D Nautical Charts and Safe Navigation. Dissertation, Mälardalen University Press. 10 /36

14 Other vessels Ship owner Flag state Mooring VHF Pilot Radio Control (RC) RC Shore Control Center RC Tugs 240 hrs auto engine Unmanned ship VHF VTS Human Factors issues: 1.SCC bridge procedures. 2.What information must be available in different areas? 11 /36

15 One Shore Control Centers may operate several unmanned ships? Unmanned ship Unmanned ship Unmanned ship Unmanned ship Unmanned ship Shore Control Center Human Factors issues: 1.Manning of SCC? Same certification as on bridge: master and mates? Remote certificate? 2.The monitoring operator and out-of-the-loop syndrome. 3.De-skilling. 4.Bridge procedures. 5.How many ships can an SCC handle? 12 /36

16 SCC Europe SCC America SCC Asia Shore Control Centers may work in shifts during day-light hours? Unmanned ship Human Factors issues: 1.Hand-over procedures. 2.How to transfer memory of ship conditions between crews 13 /36

17 Scenarios 14 /36

18 Scenarios Release Vessel to Autonomous operation at pilot drop-off point 15 /36

19 Scenarios Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 16 /36

20 Scenarios Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 17 /36

21 Scenarios Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 18 /36

22 Scenarios Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 19 /36

23 Scenarios Loss of GNSS position Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 20 /36

24 Scenarios System failure message from other component, e.g., rudder or propeller Loss of GNSS position Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 21 /36

25 Scenarios Small object detection that require support from shore control System failure message from other component, e.g., rudder or propeller Loss of GNSS position Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 22 /36

26 Scenarios Weather routing Small object detection that require support from shore control System failure message from other component, e.g., rudder or propeller Loss of GNSS position Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 23 /36

27 Scenarios Collision detection and deviation through Autonomous control Weather routing Small object detection that require support from shore control System failure message from other component, e.g., rudder or propeller Loss of GNSS position Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 24 /36

28 Scenarios Request from other ship to participate in SAR Collision detection and deviation through Autonomous control Weather routing Small object detection that require support from shore control System failure message from other component, e.g., rudder or propeller Loss of GNSS position Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 25 /36

29 Scenarios Retrieve manual control at pilot pick-up point Request from other ship to participate in SAR Collision detection and deviation through Autonomous control Weather routing Small object detection that require support from shore control System failure message from other component, e.g., rudder or propeller Loss of GNSS position Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 26 /36

30 Scenarios Retrieve manual control at pilot pick-up point Flooding detection Request from other ship to participate in SAR Collision detection and deviation through Autonomous control Weather routing Small object detection that require support from shore control System failure message from other component, e.g., rudder or propeller Loss of GNSS position Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 27 /36

31 Scenarios Retrieve manual control at pilot pick-up point Request from other ship to participate in SAR Flooding detection Intentional grounding Collision detection and deviation through Autonomous control Weather routing Small object detection that require support from shore control System failure message from other component, e.g., rudder or propeller Loss of GNSS position Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 28 /36

32 Scenarios Retrieve manual control at pilot pick-up point Request from other ship to participate in SAR Collision detection and deviation through Autonomous control Weather routing Flooding detection Intentional grounding Pilot unavailable, remote control into confined waters Small object detection that require support from shore control System failure message from other component, e.g., rudder or propeller Loss of GNSS position Reduced communication capabilities - retrieve ship Periodic status updates from Vessel to Shore Control, planned maintenance Piracy, boarding and retrieval of ship Open Sea Passage Release Vessel to Autonomous operation at pilot drop-off point 29 /36

33 I hope to be back in 2015 with the results. Thank you.

MUNIN s Autonomous Bridge

MUNIN s Autonomous Bridge MUNIN Final Event June 10 th 2015, Hamburg, Germany Dipl.-Wirt.-Ing. Wilko C. Bruhn Research Associate Fraunhofer CML http://www.unmanned-ship.org SST.2012.5.2-5: Grant no. 314286